1. On-resistance (Rds(on)): The PSMN7R6 (7.8 mΩ) is significantly lower than that of the IRFZ48 (18 mΩ). At the same current, this reduces conduction losses by approximately 57% in the PSMN7R6, resulting in less heat generation and higher system efficiency. 2. Gate charge (Qg): The PSMN7R6 (38.7 nC) is substantially lower than the IRFZ48 (110 nC). This indicates faster switching speed and lower switching losses for the PSMN7R6, making it particularly suitable for high-frequency switching applications such as DC-DC converters. It also reduces the drive current requirement. 3. Rated current and power dissipation: The PSMN7R6 has a higher nominal current rating (92 A vs. 50 A) but a lower maximum power dissipation (149 W vs. 190 W). This reflects differences in thermal design and test criteria; the PSMN7R6 likely adopts a more conservative case-to-ambient thermal resistance (RthCA) rating, offering greater real-world current capability provided that adequate heat sinking is implemented to realize its full performance. 4. Input capacitance (Ciss): The PSMN7R6 exhibits a slightly higher Ciss (2651 pF vs. 2400 pF). Combined with its very low Qg, this suggests a significantly optimized Miller capacitance (Crss), which can improve stability and noise performance during switching transitions.